Self-consumption
PV surplus is stored. When needed, the battery supplies the building.
Battery, PV, electrolyser, HIVE storage and fuel cell — one system, one schedule, one interface. HYD.OS measures, forecasts and controls every energy flow on site. Hydrogen is not a special installation here; it is the extension of your battery.
From midnight to midnight, price, sun and load keep changing — HYD.OS decides every 15 minutes where the energy goes.
Example scenario, not a measurement — every value is physically consistent.
The system automatically creates a schedule for the battery storage. It takes into account electricity prices, expected PV generation, consumption, state of charge and configured power limits. The schedule is updated regularly.
Dynamic purchase and feed-in prices, every 15 minutes.
Forecast from weather data for the site.
Load profile from measured days.
Battery and HIVE fill level in real time.
Grid connection, inverter, electrolyser.
No fixed rulebook, but forecasting and optimisation: HYD.OS predicts generation, consumption and prices, simulates millions of possible schedules and picks the cost-optimal one — fresh every quarter hour.
Four forecasting models predict the coming hours from weather data, measured load profiles and electricity prices — among them a neural network for time series. State of charge and the plant's power limits are added.
An evolutionary optimisation runs on the order of 47 million operating scenarios every quarter hour: when to charge, when to discharge, when to make hydrogen, when to sell. Every scenario is scored on cost and security of supply.
The best scenario becomes the schedule: one operating mode per quarter hour for battery, electrolyser and fuel cell. When price, weather or load change, HYD.OS recomputes — continuously, without intervention.
Figures from live operation of the HydroSolid reference plant, as of July 2026.
For each time window HYD.OS picks the mode that cuts cost and secures supply — the demo above shows which one is active right now.
PV surplus is stored. When needed, the battery supplies the building.
Energy is kept for later, for example for expensive hours.
At low prices the battery can be charged from the grid.
At attractive feed-in prices energy from the battery can be sold.
The battery reduces high power peaks in grid consumption.
The state of charge is kept as constant as possible.
No price-dependent control by this schedule.
A battery shifts energy by hours. Hydrogen shifts it by days and weeks. HYD.OS treats both as one storage with two time horizons: surplus the battery can no longer absorb goes to the electrolyser and fills the HIVE. When energy is short, the battery discharges first, then the fuel cell supplies.
Fast and efficient — balancing day and night.
Solid-state storage with RSH2, 0.9 to 500 kg H₂, only 35 bar working pressure.
Supplies power when sun and battery are not enough — including off-grid.
HYD.OS builds on an industry-proven core and speaks Modbus, M-Bus, MQTT and OCPP. The edge device keeps controlling on site even when the cloud is unreachable; the portal monitors, configures and updates remotely.
HYD.OS separates control from oversight: on site, every location runs autonomously on its edge device, even without the cloud. In the portal you create as many sites as you need, assign users and roles per site, and monitor, configure and update all of them remotely.
Readings to the portalUpdate to the siteAlert
Example sites with example values, not a measurement.
Multi-site optimisationIn development
A virtual replica of generation, load and storage on which HYD.OS rehearses decisions in advance.
Plan and control several sites as one pool.
Load-profile clustering and neural networks keep refining the prediction.
We show you the schedule for your load and generation curve — with battery, with hydrogen, or both.